
Explore the basics of electrical routing and harness design, including what a wiring harness is, its common uses, and essential terminologies such as ports, segments, and routing control points.
Master qualifying parts in NX electrical routing to add intelligence to connectors and fittings, and understand fitting ports, multi-port, anchors, built-in ports, and extension concepts.
Learn to create and qualify operating ports for connectors in NX design, set origins and vectors, adjust rotation and alignment, and define path extensions for electrical routing.
Learn to qualify a fixture port by selecting the origin and circle center, then configure forward and backward extensions to guide routing through defined points.
Qualify a multi-port in NX electrical routing by creating and placing terminals, defining alignment and rotation, and generating a terminal sequence with suffix options for multiple connections.
Qualify a simple clip project in NX by creating a new qualification, applying alignment and operation settings, and defining origin points, extensions, and temporary supports for a precise assembly.
Learn how to place standard components in an assembly using place part, choose from libraries, align with ports, and apply replacement options, routing transfer, and assembly constraints for precise placement.
Learn to move and place components in nx using the move component tool, adjust positions with rotate and translate, and apply placement objects so routing updates automatically.
Learn to rotate clock part to align the bracket with a routing port, adjust to 70 or 90 degrees, and apply lock engagement or lock rotation to secure the connection.
Replace a component in NX using the replace part command, choose a new part, control routing defaults and constraints, and place the part without affecting wiring.
Learn to create plane parts and plane paths for routing cables, compare plane versus linear paths, and define points, extensions, stock, and fixtures to shape a spline-like route.
Learn to create a linear path by connecting ports and points using lines and arcs, adjust default and per-corner radii, and modify length through double-clicks.
Explore the Hilbert command in nx to create direct connections between points, using extensions and x, y, z directions to generate lines or planes.
Create a spline path routing from one connector to another using plane path concepts, adding ports and control points while applying forward and backward extensions to avoid interference.
Learn how to subdivide a segment in NX design by placing points at specific percentages or lengths, creating equal or custom parts, and managing constraints and tendencies.
Master the transfer path workflow in NX electrical routing to move routing paths and routing control points, using distance and dynamic options to align and connect parts across a design.
Learn to connect parts in NX electrical routing using the connect port tool, adjust tolerances to bridge gaps between two objects, and finalize connections by selecting points and clicking okay.
Delete routing objects such as points, segments, or entire paths, then assign corner radii to path corners to control bend sizes.
Convert curves to a routing path using connected curves, and convert to lines, arcs, or planes; then add stops to define the cable routing.
Learn to simplify a multi-segment part into a single path and apply parallel offset in electrical routing, exploring circular, radial, and rectangular offsets for harness layouts.
Learn how to create terminals from a component by selecting a port, choosing ABC terminals, and setting uniform or non-uniform cut back lengths and extensions before modeling.
Learn how to assign overstock and space reservations in NX electrical routing, using space resolution, editing reservations, and specifying stock paths to protect cables from heat.
Create a 2D formboard drawing for electrical routing assemblies, turning connectors and routing parts into a base view and schematic drawings by setting main room, length rounding, and branch angles.
Use the orient branch in electrical routing to position a branch on your board layout. Modify angles using the angle from red letter no reference vector by selecting a bank.
The lecture demonstrates shaping a line branch using shape segment, applying a radial blend, selecting a pivot point at the branch center, and rotating to create various branch forms.
Rotate components with the rotator tool in NX electrical routing, adjusting angles up to 140 degrees and 90-degree orientations; shape, segment, and root component commands require the form board layout.
Learn to build electrical routing for a racing car using clips and connectors, create a spline path with points and vectors, apply stock, and visualize in the cable model.
The NX electrical routing course is designed to teach you the basics of electrical routing as it applies to the design of wiring and harness connectors you will cover the basic electrical routing terminologies electrical design process parts parts terminals and stocks upon completing of this course you will be ready to start designing your own wiring harness projects
A wire harness is a group of wires and cables that can be bundled together and are routed in various configurations to transfer electricity/information to and from various switches and devices. The designer builds a master part file for a family of harnesses. By using a master part file, all of the lengths are determined with allowances for movement and interferences. The master part file also keeps the proliferation of harnesses to a minimum. The wire harness is usually one of the last components to design because all the component location information must be compiled, established and assembled before you can define the scope of the harness. You need to know which connectors are used for each application and other components. You need to have knowledge of the movement or location of other non-electrical components to which you have to route wires through or around. Attachment points for securing the harness must also receive special consideration. Spacing clips or clamps too far apart can cause a rattle condition. Gravity also plays a part in securing the harness. Safety is the most important requirement. You can start to see why you need to gather all the information of the configuration before starting your design of the wire harness.
In this course you will be going to learn how electrical routing behaves when it is activated in unigraphics NX application
you are going to learn how to qualify your parts how to qualify clips and much other things
To understand this course you must have a knowledge on any graphics application please check my unigraphics NX basic crash course and complete that to understand this better
In this course you are going to learn how to create a form boards How to create a fixture pot how to keep create fitting port and how to move place.
Important connections and exporting connections for Electrical routing workbench
Different projects on electrical routing flying shape type project creating a linear paath paath operation overview stock of set point subdivide segment transform path connect path delete routing objects assign corner these are the few commands that we are going to learn in our electrical and wiring harness workbench